Abstract
Online learning has significantly evolved in recent years. Although it allows for greater flexibility, studies show that this flexibility also poses a challenge for individual learners who are required to manage their schedules and complete specific tasks independently. Therefore, success in an online learning environment relies heavily on the learner’s self-regulated learning (SRL) and ability to act independently and be active in the learning process. SRL is a dynamic ability that can be improved with proper guidance. This good practice report discusses a workshop that guides teachers to identify and enhance their students’ SRL. It focuses on engaging in learning processes while examining six SRL dimensions: goal setting, learning environment, learning strategy, time management, seeking help, and self-evaluation.
1 Introduction
This report addresses Self-Regulated Teaching (SRT) and Self-Regulated Learning (SRL). SRT is the teachers’ ability to help students achieve appropriate self-regulatory skills. Self-regulation is the ability of learners to act independently and to manage their learning process actively (Pintrich, 2004; Wang et al., 2013). This skill is essential in any learning context; however, its importance increases in online learning environments because they provide flexibility in terms of time and place (Barak et al., 2016). In addition, online learners have less direct interaction with the teacher. Often the learners may choose, for example, to attend a real-time lesson or to watch a recording of the lesson later. However, online learning often poses a challenge for learners since they are responsible for organizing their learning environment and time management. This is where the learners’ self-regulation is involved. Naturally, different people will organize and manage their learning differently. As students develop SRL, they are transformed from passive to active learners, consequently taking control of their learning process. However, some learners need more than just a general explanation of time management and self-regulation to develop these skills. To acquire these new skills, they must receive continuous guidance as an integral part of the learning design (Kizilcec et al., 2017). Skills of this type are often acquired when learning a specific subject (Zimmerman, 2008), for example, chemistry. This paper focuses on the role of SRT and SRL in chemistry; it contributes to a better understanding of the connection between SRL and chemistry.
Online learning is not a new phenomenon. Over the past few decades, schools and universities have adopted various platforms developed to support the implementation of different learning technologies. However, before the Covid-19 pandemic, online learning was offered only as an option for some learners, and it was not a major or central part of most university and school curricula (Aviran et al., 2020). The outbreak of Covid-19 forced many educational institutions to shift to online learning immediately. Initially, many teachers taught remotely without previous training in online teaching. Over time, various courses were designed and developed to support teachers in online education. A day-long workshop for chemistry teachers on SRL was developed as part of this training effort. Its principles were based on a previous study on this subject (Feldman-Maggor et al., 2022).
Teachers do not always know how students organize their learning or the extent to which different students learn independently. When teaching face-to-face, teachers can directly assess students’ abilities and their level of engagement. In contrast, with online learning, it becomes more challenging to discern these factors. When the goal is to provide students with appropriate self-regulation tools, it is advisable to first evaluate their existing degree of self-regulation and attempt to understand their difficulties in learning organization. Therefore, to support learners’ self-regulation, teachers must be able to identify students’ difficulties, which is the rationale for developing this workshop.
2 Theoretical framework
2.1 Self-Regulated Learning (SRL)
SRL in learning refers to metacognitive, motivational, and behavioral characteristics that indicate the active participation of learners in the learning process. This involves directing and monitoring one’s thoughts, feelings, and actions to achieve the learning goals. SRL encompasses the learners’ ability to act independently and manage their learning process. It also involves organizing the learning process and strategies (Cohen et al., 2022; Pintrich, 2004; Zimmerman, 2008). For instance, students exhibit SRL when they plan their time to prepare homework and use different learning strategies to prepare for a test.
Birenbaum (1997) suggested that SRL combines three learning-strategy categories: cognitive, meta-cognitive, and resource management. Cognitive skills include problem-solving abilities, critical thinking, database use, and selecting and processing relevant information. Meta-cognitive skills include applying learning strategies, self-esteem, and reflection. Resource management proficiency includes time management and managing the learning environment. SRL is an essential skill among high-school students since it affects their persistence and achievements (Zimmerman, 2013). Eidelman et al. (2019) developed and studied an online environment for teaching chemistry among high-school students in Israel, focusing on developing SRL skills after studying chemistry for three years. They found that four profiles of SRL align with the student’s achievements during the program, as measured by their matriculation exam scores in chemistry and their activity on the course website. Additional studies indicate that it is important to support the development of students’ SRL through the learning environment by providing help, formative assessment, feedback, and monitoring progress (Berglas-Shapiro et al., 2017; Roll et al., 2011).
In addition, SRL helps students take responsibility for their learning and makes them independent learners, which is important starting from elementary school. This is when students begin to develop their learning skills and habits in a supportive environment. It was suggested that children in elementary and preschool might be challenged by implementing complex SRL cognitive and metacognitive strategies (Paris & Newman, 1990). However, developing SRL at a young age has its advantages since children are more likely to change their habits during these crucial early years and are motivated to learn, which may fade over time (Hattie & Marsh, 1996).
SRL develops throughout childhood and adolescence (Winne, 1995), and the educational environment may influence its development (Dent & Koenka, 2016). A study on SRL in science education among middle-school students (7th grade) conducted by Berglas-Shapira and her colleagues (2017) found that explicit instruction regarding SRL was necessary. For example, in the context of “goal setting,” students did not necessarily know how to set goals for themselves, and this skill must be explicitly taught. The researchers emphasized that developing this skill is as essential as acquiring other cognitive skills, such as formulating a research question and interpreting graphs. Moreover, SRL is important in childhood, adolescence, and beyond. SRL skills are required for lifelong learning; the components of SRL provide thinking skill sets, such as flexible thinking and problem-solving, which are needed to compete in today’s changing job markets (Taranto & Buchanan, 2020).
2.2 Self-Regulated Teaching (SRT)
SRT is a teaching approach that emphasizes developing students’ self-regulatory skills. It involves teaching students how to set goals, monitor their progress, and adjust their learning strategies to achieve their goals. SRT also prepares students to regulate and control their emotions, attention, and motivation to optimize their learning. In preparing their students for SRT, teachers guide them to plan a specific task and promote their students’ self-regulation (Kramarski & Kohen, 2017). Teachers should demonstrate knowledge of how to teach SRL, whether in implementing SRT in their subject domain or regarding general pedagogical strategies for SRT (Kramarski & Heaysman, 2021). In other words, teachers’ professional vision, particularly the knowledge-based reasoning component, could be expanded to include their epistemic aims, ideals, and reliable processes for teaching content and SRT. Teachers’ SRT affects students’ cognitive and metacognitive processing as well as their subsequent learning performance. Therefore, regarding their SRL and SRT, teachers must adopt the same lifelong learning mindset that they advocate for students to ensure that these techniques are implemented in normative and productive ways (Greene, 2021).
In their SRT role, teachers proactively guide students in drawing from their personal experiences to perform upcoming tasks. SRT is a continuum of strategic instruction, specifically concerning the teacher’s role beyond its metacognitive and motivational elements. SRT can also be investigated as an overall process of strategic instruction measured on a continuum (Kramarski & Kohen, 2017).
3 Participants
The professional development (PD) workshop on SRL was held five times: one in the full version on the day of professional development for chemistry teachers in the summer of 2020 and four shortened versions from 2021 to 2022 for teachers and university lecturers. This report is based on 16 high-school chemistry teachers who participated in the full PD workshop in the summer of 2020. The workshop was held online, and teachers represented different demographic areas in Israel. The data analysis received IRB (Institutional Review Board) approval from the Weizmann Institute of Science Ethics Committee.
4 The aim of this report
This good practice report details how to (1) identify students’ different SRL dimensions, (2) include examples of how to help students to develop their SRL, and (3) present teachers’ examples from the workshop regarding SRT in chemistry.
First, workshop structure and design are presented. The workshop is based on six dimensions that characterize self-regulation: goal setting, environment structuring, task strategies, time management, help-seeking, and self-evaluation (Barnard et al., 2009). The dimensions were demonstrated to teachers through a “test yourself” questionnaire developed for the workshop. Then, different ways to help teachers improve students’ time management, one of the most significant aspects of SRL in online learning, were described. In the report, I describe ways to identify students with difficulties in self-regulation and then discuss different methods of supporting them. I also present examples of teachers’ SRT by providing examples from teachers’ submitted assignments. Although SRL theory is generally used to characterize learners for research purposes (Davis et al., 2018; Kizilcec et al., 2017), here, I tried to link this theory to the educational field, thus bridging the gap between research and education.
5 SRL workshop structure
The workshop for chemistry teachers focused on understanding the concept of SRL and its significance in online learning. It explored various learning skills to support students’ educational journeys. The workshop was structured as follows:
Part A: Definition and importance of SRL. Teachers first completed a self-reporting SRL questionnaire to evaluate themselves as learners and were introduced to the SRL dimensions and guidelines. During this part of the workshop, teachers identified students’ perceived SRL difficulties and suggested solutions.
Part B: Learning and organizational skills in chemistry education. Below are three examples:
Familiarization with the structure of the textbook and the organization of course material throughout the year and before the exams.
Creating a schedule for efficient time management.
Demonstrating a method for answering chemistry questions using examples from matriculation exams. This section covered different standard chemistry questions and highlighted the relevance of mathematics to chemistry.
Each of these learning skills was first presented to the teachers. Then, they were requested to relate these learning and organizational skills to chemistry education by planning a lesson or choosing a specific chemistry question.
6 SRL workshop design
6.1 The self-regulated learning dimensions and the “test yourself” questionnaire
Many studies that deal with self-regulation utilize self-reporting questionnaires. One questionnaire particularly suited for evaluating self-regulation in remote learning is the Online SRL Questionnaire (OSLQ), developed by Barnard et al. (2009). This questionnaire addresses six dimensions of self-regulation in learning: goal setting, environment structuring, task strategies, time management, help-seeking, and self-evaluation. Examples of aspects of the questionnaire relevant to online learning include the following:
Goal setting: Fixing goals for the short term (daily or weekly) and then for the long term (monthly or semesterly). Establishing standards for tasks by providing online lessons, establishing goals for organizing online learning, and maintaining high standards.
Environment structuring: choosing a learning environment with limited distractions. Unlike in-school learning, online learning usually occurs at home; therefore, choosing the right place within the home is important.
Task strategies: note-taking in online lessons, preparing for online lessons.
Time management: planning a schedule by time or by task prioritization.
Help-seeking: consulting with the teacher, friends, or the internet.
Self-evaluation: comparing learning experiences with classmates, asking yourself questions.
For the workshop, Barnard et al.’s questionnaire (2009) was converted into a “test yourself” questionnaire for the full questionnaire, see: https://stwis.org/l2r1ou
The questionnaire is based on a five-point Likert scale, from 1 – “Disagree” – to 5 – “Strongly Agree.” Likert scales give the same weight to each statement being tested, and within each theme, the scores can be summed to give an overall picture of that theme. Thus, in the converted questionnaire, the distribution of the respondents’ answers can provide a picture of the degree of students’ self-regulation across and within the different dimensions. Within each dimension, the closer the total score is to the highest possible score, the higher the student’s level of SRL. For example, the goal-setting dimension includes six statements; therefore, the highest possible score is 30 points. Thus, the closer the score is to 30, the higher the students’ degree of self-regulation within the goal-setting dimension, whereas the lower the score, the lower their self-regulation level in this dimension. However, concomitantly, the same student may have a high level of SRL in another dimension (e.g., environment structuring). The questionnaire thus facilitates assessing the dimensions in which the students require support to promote their SRL.
The questionnaire’s main limitation is that it contains only closed questions. In a previous study that integrated semi structured interviews and focused on students, additional aspects arose that pertained to task strategies, time management, and self-evaluation (Feldman-Maggor et al., 2022). For example, students who completed the online course used the course assignments to manage their time, determine their learning strategy, and evaluate themselves. The students explained that when they watch recorded lessons, they apply various active learning strategies, such as pausing the lecture when they do not understand something, taking notes, or returning to specific topics into which they want to delve deeper. By completing the questionnaire, students can evaluate their general level of SRL according to the dimensions. Still, in assessing their SRL in any specific field or subject, additional SRL attributes specific to that field and its learning methods might require further evaluation using other methods, such as teacher-student dialogue.
6.2 Support students’ time management
As alluded to earlier, one of the characteristics of self-regulation that affects success in online learning is resource management skills, including time management and environment structuring. According to Pintrich (2004), the behavior of learners stems from their SRL, and it is expressed, among other things, in their degree of perseverance in learning. Time management is one factor that best predicts online learning success (Feldman-Maggor et al., 2022). One study dealing with online learning found that poor time management can explain the dropout of about 51 % of all withdrawals from online courses. Thus, it is advisable to assist learners in developing effective time management skills (Nawrot & Doucet, 2014).
In the workshop, I demonstrated how teachers could support students’ time management, one of the most significant aspects of SRL in online learning. This includes, for example, stressing the importance of guiding students to create a schedule for themselves and requiring this task during a lesson or homework. In creating such a schedule, it is recommended to begin with the primary school schedule and all regular weekly activities. Such activities include extra-curricular classes, volunteering, youth movement participation, family commitments, and even social gatherings. Then, students should determine where time is available for studying, practicing, completing homework, and reviewing the material. The first week of the schedule will be a trial run since students may have difficulty estimating the time required for each activity. However, it is possible to create a more accurate schedule by the following week based on the first week’s experience. It is important that the schedule also includes time for leisure and breaks, as well as the main tasks assigned for each day. It is recommended that all students print out the schedule and place it somewhere highly visible to them to remind them of their obligations throughout the week. Schedule templates are available over the Internet; an example is shown in Figure 1, and it is possible to design the schedule independently.

A time planning template.
7 Examples from the workshop
7.1 How to identify students with difficulties in self-regulation
During the day-long training workshop, the teachers were introduced to SRL theory. They were asked to complete the “test yourself” SRL questionnaire through their own eyes when they were university students, as well as during their various professional development courses. They were then asked three open questions: (1) How can one identify students’ difficulties in the context of learning online? How can students’ current levels of self-regulation be identified? How can students be supported? This section presents examples of the answers given by 16 teachers who participated in the workshop, recorded by those teachers on a collaborative bulletin board (Padlet). The teachers’ responses were analyzed according to the six dimensions of self-regulation discussed above. Five of the six dimensions were mentioned in the teachers’ answers (only the self-evaluation dimension was not mentioned). The “help-seeking” dimension became “offering help” since the teachers suggested that they should offer help to students they identify as having difficulties. The teachers’ answers were analyzed using a “top-down” approach; first, they located themes that corresponded to the dimensions of self-regulation within the answers. Then, they carried out an inductive analysis in which themes emerged from the teachers’ answers – a “bottom-up” approach (Braun & Clarke, 2006).
Examples of the teachers’ answers are presented in Table 1. In addition to these answers, the teachers also mentioned that a general communication channel should be developed with the students for group and individual messages (e.g., the WhatsApp smartphone app). Another theme that emerged from the teachers’ answers and did not appear in the table is the principle of taking responsibility – also an SRL principle (Feldman-Maggor et al., 2022). One teacher described it as follows: “Remote learning requires the students to have greater self-discipline and to take more responsibility for their learning.” Other teachers referred to students who take responsibility, giving examples of how they manage their time and take personal responsibility for their learning, such as taking notes.
Characteristics of self-regulation; identifying students’ difficulties in self-regulation and the means by which to support them – all identified by teachers.
Dimension | Examples of characteristics of self-regulation in learners | Examples of students’ difficulties in self-regulation | Examples of student support options |
---|---|---|---|
Goal setting | No examples of students’ goal setting arose. | “If we don’t set goals for students, they won’t be involved in the learning process and will (just) wait for the exam.” | “It is important to coordinate expectations –the grade is not everything, and the journey is important.” |
Environment structuring | “Joining the Zoom (meeting) a few minutes before the lesson.” | “Physical difficulties – no computer, no internet, no quiet room in which to learn.” “Emotional difficulties – family problems.” |
No examples of opportunities to support students in environment structuring arose. |
Task strategies | “Reviewing the lesson slides and assignments, and sometimes printing them ahead of the lesson.” | “It is important to break down the assignments into small tasks.” | “Sending lesson materials before/after class.” |
Time management | “Forewarning of absences.” | “Students who have difficulties in completing assignments on time.” | “Distribute a syllabus at the beginning of the year, and at the start of each new topic – a breakdown of the content.” |
Help-seeking/Offering help | “Students who ask for help when they need it.” | “Students who don’t connect (on zoom)/don’t come to the lesson/don’t hand in assignments.” | “Private lessons for students who are struggling.” “A one-on-one conversation if a difficulty is identified.” |
7.2 Teachers’ SRT
During the workshop, teachers were exposed to different learning skills that can be provided to their students when teaching chemistry in order to improve their students’ SRL abilities. Questions that were raised included, for example, how they can provide students with a scaffold, such as a table or concept map, to answer questions. In the second workshop assignment, they chose learning skills and gave an example of using the method in their chemistry teaching. Eight out of 16 teachers showed how a table could serve as a means to organize data for problem-solving. This is especially relevant for the topics of stoichiometry and intermolecular force since students compare the boiling and melting points of two molecules. Although this is a common learning strategy in chemistry, its uniqueness lies in relating the strategy to students’ SRL. Two out of 16 teachers presented a concept map to summarize their chemistry lessons. Six teachers analyzed the structure of a video or textbook to explain to students the logic behind it. For example, they focused on different aspects of the book or distinguished between content and exercises.
8 Summary and conclusions
During the workshop, six SRL dimensions (Barnard et al., 2009) were demonstrated, which can help bridge the gap between educational theory and teaching practices. These dimensions can be used to teach students how to set goals for themselves, organize their study environment, develop their learning strategies, assess their learning progress, and let them know when to seek help. For example, help-seeking is an important component of SRL that indicates students’ ability to evaluate their learning difficulties and seek help accordingly.
Many studies deal with characterizing SRL among learners (Baker et al., 2020; Järvelä et al., 2016). Dori and Avargil (2015) showed how a built-in metacognitive tool promotes students’ SRL and chemistry understanding. They indicated the potential contribution of SRL to chemistry education. I further contribute to this direction and offer new ways to support learners in the realm of chemistry. Students begin to develop SRL skills during elementary school when they first learn to independently prepare homework, schedule time to prepare for lessons, and even take notes during the lesson. Yet each individual develops a different level of SRL. Here, I emphasize SRT since educators should support students and help them develop SRL; further developing the relevant skills will help them take responsibility for their learning process.
Although it may be challenging to implement SRL strategies based solely on instructions, these strategies can be developed through appropriate workshops (Nawrot & Doucet., 2014). Teaching students how to develop SRL abilities can significantly impact their learning outcomes. However, one of the main obstacles to this objective is that high-school teachers may not necessarily be trained to implement these skills and may therefore face difficulties in teaching them. Professional development workshops can help address this obstacle. The report presented here is a significant step in this direction.
The report’s examples can be useful for teachers in designing interventions and pedagogies to enhance students’ SRL during their K-12 studies. Developing orientation skills related to SRL can increase their chances of success in future academic settings, especially given the rise of online learning (Blau & Shamir-Inbal, 2017). Zimmerman (2008) also emphasized the importance of SRL in academic success. This report focused on chemistry education. However, the workshop’s structure can be applied to different contexts and generalized to other disciplines.
This paper presented SRL and SRT concepts through examples from a PD workshop. It included a questionnaire that assists in assessing self-regulation. Teachers were introduced to a system to create a personal learning schedule to support learners’ SRL. It also demonstrated how teachers could use this tool to identify students’ difficulties and possible ways to support them in developing self-regulation in learning. The examples presented in this report are based on a one-day PD workshop. Creating longer PD courses focused on SRL and evaluating their effectiveness in improving students’ learning skills are necessary to further establish teachers’ SRT skills.
Funding source: Israel Ministry of Education, the Israel Ministry of Immigration, and the Open University
Award Identifier / Grant number: 507441
Acknowledgments
The workshop presented in this paper draws upon the author’s doctoral dissertation, supervised by Prof. Ron Blonder from the Department of Science Teaching at the Weizmann Institute of Science and Prof. Inbal Tuvi-Arad from the Department of Natural Sciences at The Open University of Israel. The author would like to express her gratitude to both professors for their invaluable guidance and advice, which greatly influenced the development of this article.
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Author contributions: The author has accepted responsibility for the entire content of this submitted manuscript and approved submission.
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Research funding: This work was supported by the Israel Ministry of Education, the Israel Ministry of Immigration, and the Open University Research Fund (grant no. 507441).
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Conflict of interest statement: The author declares no conflicts of interest regarding this article.
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Articles in the same Issue
- Frontmatter
- Special Issue Papers
- Frontiers of research in chemistry education for the benefit of chemistry teachers
- The context of science fiction in the pre-service teachers’ chemistry education
- The development of an instrument for measuring teachers’ and students’ beliefs about differentiated instruction and teaching in heterogeneous chemistry classrooms
- “Chemistry, climate and the skills in between”: mapping cognitive skills in an innovative program designed to empower future citizens to address global challenges
- Supporting first-year students in learning molecular orbital theory through a digital learning unit
- ChemDive – a classroom planning tool for infusing Universal Design for Learning
- Developing and evaluating a multiple-choice knowledge test about Brønsted-Lowry acid-base reactions for upper secondary school students
- Analysis of online assignments designed by chemistry teachers based on their knowledge and self-regulation
- Identifying self-regulated learning in chemistry classes – a good practice report
- Motivation to use digital educational content – differences between science and other STEM students in higher education
- Are you teaching “distillation” correctly in your chemistry classes? An educational reconstruction
- A new online resource for chemical safety and green chemistry in science education